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    • 11. 发明申请
    • Optical Package With Multi-Component Mounting Frame
    • 具有多组件安装框架的光学封装
    • US20100254654A1
    • 2010-10-07
    • US12419550
    • 2009-04-07
    • Jacques Gollier
    • Jacques Gollier
    • G02B6/32
    • G02B7/021G02B6/4226G02B7/004G02F1/377H01S5/0092H01S5/02288
    • An optical package is provided comprising a laser diode, coupling optics, a wavelength conversion device, and a multi-component mounting frame. The coupling optics comprises a first lens component that creates a virtual magnified image V of the waveguide of one of the opposing facets with a magnification factor M1 and a second lens component that creates a focused image of V at the remaining opposing facet with a magnification factor M2. The virtual magnified image V is outside of the interfacial waveguide-to-waveguide optical path of the package and the multi-component mounting frame comprises first and second frame components that independently fix the relative alignment of the first and second lens components. The first and second frame components are secured to each other such that angular misalignment between the first and second frame components originates along a fixation interface H that is outside of the interfacial waveguide-to-waveguide optical path. The virtual magnified image V and the fixation interface H are both positioned on a common side of the coupling optics, either the laser diode side of the coupling optics or the wavelength conversion device side of the coupling optics. Additional embodiments are disclosed and claimed.
    • 提供了包括激光二极管,耦合光学器件,波长转换器件和多部件安装框架的光学封装。 耦合光学器件包括第一透镜部件,其利用放大系数M1产生相对面中的一个的波导的虚拟放大图像V,以及在剩余的相对面处产生具有放大因子的V的聚焦图像的第二透镜部件 M2。 虚拟放大图像V在封装的界面波导到波导管路的外部,并且多部件安装框架包括独立地固定第一和第二透镜部件的相对对准的第一和第二框架部件。 第一和第二框架部件彼此固定,使得第一和第二框架部件之间的角度偏移沿着界面波导到波导光路外部的固定界面H起始。 虚拟放大图像V和固定界面H都位于耦合光学器件的共同侧,耦合光学器件的激光二极管侧或耦合光学器件的波长转换器件侧。 公开并要求保护附加实施例。
    • 13. 发明申请
    • Folded Optical System and a Lens for Use in the Optical System
    • 折叠光学系统和用于光学系统的镜头
    • US20100214652A1
    • 2010-08-26
    • US12393299
    • 2009-02-26
    • Jacques Gollier
    • Jacques Gollier
    • G02B5/08G02B27/30H01S3/081
    • G02B27/0025G02F1/3775H01S5/005H01S5/0092H01S5/02248H01S5/02284
    • An optical system having an optical axis, the optical system comprising: (I) a light source; (II) a reflector; (III) a lens component situated between the light source and the reflector; (IV) a receiver, wherein the light source and the receiver are situated substantially symmetrically and are decentered with respect to the optical axis, and are separated by a distance d from one another; wherein: (a) the lens component is positioned to provide a collimated beam when intercepting light from the light source, and (b) the reflector is situated to intercept the collimated beam and to reflect the collimated beam to the receiver through the lens; and such that the collimated beam is at an angle Θ′ to the optical axis; and (c) the lens component is structured to provide on the receiver an image of the light source, the image characterized by (i) astigmatism of more than 0.05 waves RMS, and less than 0.1 waves RMS, when the lens component is not misaligned with respect to the average emission angle of the light source; and (ii) astigmatism of less than 0.05 for tilt angles of 2 to 5 degrees, when the lens component is tilted by of 2 to 5 degrees with respect to the average emission angle of the light source.
    • 一种具有光轴的光学系统,所述光学系统包括:(I)光源; (II)反射器; (III)位于光源和反射器之间的透镜部件; (IV)接收器,其中所述光源和所述接收器基本对称地设置并且相对于所述光轴偏心,并且彼此间隔开距离d; 其中:(a)透镜部件定位成当截取来自光源的光时提供准直光束,并且(b)反射器被定位成拦截准直光束并通过透镜将准直光束反射到接收器; 并且使得准直光束与光轴成θΘ角; 并且(c)透镜部件构造成在接收器上提供光源的图像,该图像的特征在于(i)当透镜部件未对准时(i)散光超过0.05波RMS,小于0.1波RMS) 相对于光源的平均发光角度; 和(ii)相对于光源的平均发光角度使透镜部件倾斜2〜5度时,对于2〜5度的倾斜角度,散光小于0.05。
    • 15. 发明申请
    • MULTI-VARIABLE CONTROL METHODS FOR OPTICAL PACKAGES
    • 用于光学包装的多变量控制方法
    • US20100150185A1
    • 2010-06-17
    • US12335692
    • 2008-12-16
    • Jacques GollierGarrett Andrew PiechDragan PikulaDaniel Ohen Ricketts
    • Jacques GollierGarrett Andrew PiechDragan PikulaDaniel Ohen Ricketts
    • H01S3/10
    • H01S5/0683G02F1/35G02F1/3775H01S5/0092H01S5/06256H01S5/0687
    • According to one embodiment of the present invention, an optical package comprises one or more semiconductor lasers coupled to a wavelength conversion device with adaptive optics. The optical package also comprises a package controller programmed to operate the semiconductor laser and the adaptive optics based on modulated feedback control signals supplied to the wavelength selective section of the semiconductor laser and the adaptive optics. The wavelength control signal supplied to the wavelength selective section of the semiconductor laser may be adjusted based on the modulated wavelength feedback control signal such that the response parameter of the wavelength conversion device is optimized. Similarly, the position control signals supplied to the adaptive optics may be adjusted based on the modulated feedback position control signals such that the response parameter of the wavelength conversion device is optimized.
    • 根据本发明的一个实施例,光学封装包括耦合到具有自适应光学器件的波长转换器件的一个或多个半导体激光器。 光学封装还包括编程为基于提供给半导体激光器和自适应光学器件的波长选择部分的调制反馈控制信号来操作半导体激光器和自适应光学器件的封装控制器。 提供给半导体激光器的波长选择部分的波长控制信号可以基于调制的波长反馈控制信号进行调整,使得波长转换器件的响应参数被优化。 类似地,可以基于调制的反馈位置控制信号来调整提供给自适应光学器件的位置控制信号,使得波长转换装置的响应参数被优化。
    • 16. 发明授权
    • Multi-variable control methods for optical packages
    • 光学封装的多变量控制方法
    • US07729397B1
    • 2010-06-01
    • US12335692
    • 2008-12-16
    • Jacques GollierGarrett Andrew PiechDragan PikulaDaniel Ohen Ricketts
    • Jacques GollierGarrett Andrew PiechDragan PikulaDaniel Ohen Ricketts
    • H01S3/13
    • H01S5/0683G02F1/35G02F1/3775H01S5/0092H01S5/06256H01S5/0687
    • According to one embodiment of the present invention, an optical package comprises one or more semiconductor lasers coupled to a wavelength conversion device with adaptive optics. The optical package also comprises a package controller programmed to operate the semiconductor laser and the adaptive optics based on modulated feedback control signals supplied to the wavelength selective section of the semiconductor laser and the adaptive optics. The wavelength control signal supplied to the wavelength selective section of the semiconductor laser may be adjusted based on the modulated wavelength feedback control signal such that the response parameter of the wavelength conversion device is optimized. Similarly, the position control signals supplied to the adaptive optics may be adjusted based on the modulated feedback position control signals such that the response parameter of the wavelength conversion device is optimized.
    • 根据本发明的一个实施例,光学封装包括耦合到具有自适应光学器件的波长转换器件的一个或多个半导体激光器。 光学封装还包括编程为基于提供给半导体激光器和自适应光学器件的波长选择部分的调制反馈控制信号来操作半导体激光器和自适应光学器件的封装控制器。 提供给半导体激光器的波长选择部分的波长控制信号可以基于调制的波长反馈控制信号进行调整,使得波长转换器件的响应参数被优化。 类似地,可以基于调制的反馈位置控制信号来调整提供给自适应光学器件的位置控制信号,使得波长转换装置的响应参数被优化。
    • 17. 发明申请
    • CORRECTION OF POWER VARIATIONS IN LASER SOURCES
    • 激光源中功率变化的校正
    • US20100103967A1
    • 2010-04-29
    • US12257043
    • 2008-10-23
    • Jacques GollierMartin Hai HuDavid August Sniezek LoeberDragan PikulaDaniel Ohen Ricketts
    • Jacques GollierMartin Hai HuDavid August Sniezek LoeberDragan PikulaDaniel Ohen Ricketts
    • H01S3/13
    • H01S5/06832H01S5/0092H01S5/06256H04N9/3129
    • The present invention relates generally to semiconductor lasers and laser projection systems. According to one embodiment of the present invention, a method of correcting output power variations in a semiconductor laser is provided. According to the method, an output power feedback loop is utilized to generate optical intensity feedback signals representing actual output power of the laser source for discrete portions V1, Vi, . . . Vj of the image signal. Error signals E1, Ei, . . . Ej are generated representing the degree to which actual projected output power varies from a target projected output power for the discrete portions V1, Vi, . . . Vj of the image signal. These error signals E1, Ei, . . . Ej are utilized to apply corrected control signals G1′, Gi′, . . . Gj′ to the gain section of the semiconductor laser for projection of compatible discrete portions V1′, Vi′, . . . Vj′ of the image signal. According to another embodiment of the present invention, a system is provided for generating a projected laser image.
    • 本发明一般涉及半导体激光器和激光投射系统。 根据本发明的一个实施例,提供了一种校正半导体激光器中的输出功率变化的方法。 根据该方法,使用输出功率反馈回路来产生代表离散部分V1,Vi的激光源的实际输出功率的光强度反馈信号。 。 。 Vj的图像信号。 错误信号E1,Ei,。 。 。 产生Ej,表示实际投影输出功率与离散部分V1,Vi的目标投影输出功率变化的程度。 。 。 Vj的图像信号。 这些误差信号E1,Ei,...。 。 。 使用Ej来应用校正控制信号G1',Gi'。 。 。 Gj'到半导体激光器的增益部分,用于投射相容的离散部分V1',Vi'。 。 。 Vj'。 根据本发明的另一个实施例,提供了一种用于产生投影激光图像的系统。
    • 19. 发明申请
    • OPTIMIZED METHOD FOR LID BIOSENSOR RESONANCE DETECTION
    • 用于生物传感器谐振检测的优化方法
    • US20090138205A1
    • 2009-05-28
    • US12266060
    • 2008-11-06
    • Jacques GollierGarrett A. PiechMichael B. WebbQi Wu
    • Jacques GollierGarrett A. PiechMichael B. WebbQi Wu
    • G06F19/00G06F15/00
    • G01J3/28G01J3/02G01J3/0218G01J3/1895G01J3/2803G01N21/7743
    • An optical interrogation system is described herein that can interrogate a label-independent-detection (LID) biosensor and monitor a biological event on top of the biosensor without suffering from problematical parasitic reflections and/or problematical pixelation effects. In one embodiment, the optical interrogation system is capable of interrogating a biosensor and using a low pass filter algorithm to digitally remove problematic parasitic reflections contained in the spectrum of an optical resonance which makes it easier to determine whether or not a biological event occurred on the biosensor. In another embodiment, the optical interrogation system is capable of interrogating a biosensor and using an oversampling/smoothing algorithm to reduce oscillations in the estimated location of an optical resonance caused by the problematical pixelation effect which makes it easier to determine whether or not a biological event occurred on the biosensor.
    • 本文描述了一种光询问系统,其可以询问标签无关检测(LID)生物传感器并在生物传感器顶部监测生物事件,而不会遇到有问题的寄生反射和/或有问题的像素化效应。 在一个实施例中,光询问系统能够询问生物传感器并使用低通滤波器算法来数字地去除包含在光学共振的光谱中的有问题的寄生反射,这使得更容易确定生物事件是否发生在 生物传感器 在另一个实施例中,光询问系统能够询问生物传感器并使用过采样/平滑算法来减少由问题像素化效应引起的光学共振的估计位置中的振荡,这使得更容易确定生物事件 发生在生物传感器上。
    • 20. 发明授权
    • Optimized method for LID biosensor resonance detection
    • LID生物传感器共振检测的优化方法
    • US07509239B2
    • 2009-03-24
    • US11716425
    • 2007-03-09
    • Jacques GollierGarrett A. PiechMichael B. WebbQi Wu
    • Jacques GollierGarrett A. PiechMichael B. WebbQi Wu
    • G03F1/26
    • G01J3/28G01J3/02G01J3/0218G01J3/1895G01J3/2803G01N21/7743
    • An optical interrogation system is described herein that can interrogate a label-independent-detection (LID) biosensor and monitor a biological event on top of the biosensor without suffering from problematical parasitic reflections and/or problematical pixelation effects. In one embodiment, the optical interrogation system is capable of interrogating a biosensor and using a low pass filter algorithm to digitally remove problematic parasitic reflections contained in the spectrum of an optical resonance which makes it easier to determine whether or not a biological event occurred on the biosensor. In another embodiment, the optical interrogation system is capable of interrogating a biosensor and using an oversampling/smoothing algorithm to reduce oscillations in the estimated location of an optical resonance caused by the problematical pixelation effect which makes it easier to determine whether or not a biological event occurred on the biosensor.
    • 本文描述了一种光询问系统,其可以询问标签无关检测(LID)生物传感器并在生物传感器顶部监测生物事件,而不会遇到有问题的寄生反射和/或有问题的像素化效应。 在一个实施例中,光询问系统能够询问生物传感器并使用低通滤波器算法来数字地去除包含在光学共振的光谱中的有问题的寄生反射,这使得更容易确定生物事件是否发生在 生物传感器 在另一个实施例中,光询问系统能够询问生物传感器并使用过采样/平滑算法来减少由问题像素化效应引起的光学共振的估计位置中的振荡,这使得更容易确定生物事件 发生在生物传感器上。